4.7 Review

Biomedical Applications of Bacteria-Derived Polymers

Journal

POLYMERS
Volume 13, Issue 7, Pages -

Publisher

MDPI
DOI: 10.3390/polym13071081

Keywords

bacteria; biopolymer; biosynthesis; biomaterial; regenerative medicine; tissue engineering; drug delivery; biodegradable polymers; polymer science; hydrogel

Funding

  1. University of Sheffield
  2. Public Service Department, The Government of Malaysia

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Plastics have been widely used in various fields, especially in biomedical applications. Recent focus has shifted to manufacturing polymers using biological methods to reduce environmental costs and reliance on toxic substances. Bacteria-derived polymers offer unique biological properties that meet the demands of the biomaterials industry for highly customized, biocompatible materials.
Plastics have found widespread use in the fields of cosmetic, engineering, and medical sciences due to their wide-ranging mechanical and physical properties, as well as suitability in biomedical applications. However, in the light of the environmental cost of further upscaling current methods of synthesizing many plastics, work has recently focused on the manufacture of these polymers using biological methods (often bacterial fermentation), which brings with them the advantages of both low temperature synthesis and a reduced reliance on potentially toxic and non-eco-friendly compounds. This can be seen as a boon in the biomaterials industry, where there is a need for highly bespoke, biocompatible, processable polymers with unique biological properties, for the regeneration and replacement of a large number of tissue types, following disease. However, barriers still remain to the mass-production of some of these polymers, necessitating new research. This review attempts a critical analysis of the contemporary literature concerning the use of a number of bacteria-derived polymers in the context of biomedical applications, including the biosynthetic pathways and organisms involved, as well as the challenges surrounding their mass production. This review will also consider the unique properties of these bacteria-derived polymers, contributing to bioactivity, including antibacterial properties, oxygen permittivity, and properties pertaining to cell adhesion, proliferation, and differentiation. Finally, the review will select notable examples in literature to indicate future directions, should the aforementioned barriers be addressed, as well as improvements to current bacterial fermentation methods that could help to address these barriers.

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